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Past, present and future of research on wearable technologies for healthcare: a bibliometric analysis using scopus.

wearable technology market research papers

1. Introduction

  • General Research Question: How has the scientific production published in Scopus within the research field of wearable technologies for health monitoring evolved over the last two decades? - Specific Research Question (SRQ) 1: How many specific publications are there on this subject in Scopus and what trends can be observed? - SRQ 2: What countries and institutions produce most of this research? - SRQ 3: Which are the most active journals based on the objectives of this research and the relationship between them? - SRQ 4: Who are the most relevant authors based on the search strategy proposed in this analysis and the co-citation between them? - SRQ 5: What are the most significant key concepts and how have they evolved over the years?

2. Literature Review

2.1. definition, characteristics and opportunities of wearable technologies, 2.2. types of wearable technologies and business devices, 2.3. previous research and results achieved.

Click here to enlarge figure

3.1. Search Strategy

3.2. selection study and inclusion criteria, 3.3. data analysis, 4.1. results of the search and selection of studies, 4.2. publication outputs and development trend, 4.3. analysis of countries and institutions, 4.4. journal analysis, 4.5. analysis of authors and co-cited authors, 4.6. the keyword co-occurrence network, 5. discussion, 5.1. limitations, 5.2. implications, 6. conclusions, author contributions, institutional review board statement, informed consent statement, data availability statement, conflicts of interest.

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Search for Keywords
TITLE-ABS-KEY (((e-health OR m-health OR “mobile health” OR u-health OR telemedicine) AND (imu OR gyroscope OR accelerometer OR “wearable sensor” OR “wearable technology”))) AND (monitoring)
Filters applied
(LIMIT-TO (DOCTYPE, “ar”) OR LIMIT-TO (DOCTYPE, “re”))
CriteriaValues
DatabaseScopus (Elsevier)
Document typesOriginal articles and reviews
Document contentsEmpirical and theoretical studies related to the aplplications of wearable technology in healthcare (WTH)
Date of publicationFrom 2000 to 2021
RankCountryFrequency (%) n = 600InstitutionFrequency (%) n = 600
1stUnited States208 (34.7)University of California, Los Angeles19 (3.1)
2ndUnited Kingdom68 (11.3)Harvard Medical School15 (2.5)
3rdItaly53 (8.8)University of Twente10 (1.6)
4thChina42 (7)Universidad de Granada10 (1.6)
5thSouth Korea38 (6.3)David Geffen School of Medicine at UCLA9 (1.5)
6thSpain35 (5.8)Imperial College London9 (1.5)
7thAustralia34 (5.7)University of Oxford9 (1.5)
8thGermany33 (5.5)Université McGill8 (1.4)
9thIndia28 (4.7)IRCCS Istituto Auxologio Italiano8 (1.4)
10thCanada27 (4.5)University of California, San Francisco8 (1.4)
Total566 (94.3)Total105 (17.5)
Others34 (5.7)Others495 (82.5)
RankJournalRecords, (%) n = 600CitationsTLSCountrySubject Area (Category)
1stSensors (Switzerland) 51 (8.5)146114SwitzerlandBiochemistry, Genetics and Molecular Biology (Biochemistry); Chemistry (Analytical Chemistry); Computer Science (Information Systems); Engineering (Electrical and Electronic Engineering); Medicine (Medicine (miscellaneous); Physics and Astronomy (Atomic and Molecular Physics, and Optics; Instrumentation).
2ndJMIR mHealth and uHealth31 (5.2)44610CanadaMedicine (Health Informatics).
3rdTelemedicine and E Health26 (4.3)73615United StatesHealth Professions (Health Information Management); Medicine (Health Informatics; Medicine (miscellaneous)).
4thIEEE Journal of Biomedical and Health Informatics21 (3.5)90216United StatesBiochemistry, Genetics and Molecular Biology (Biotechnology); Computer Science (Computer Science Applications); Engineering (Electrical and Electronic Engineering); Health Professions (Health Information Management).
5thJournal of Medical Internet Research18 (3) 3808CanadaMedicine (Health Informatics).
6thIEEE Access12 (2)1465United StatesComputer Science (Computer Science (miscellaneous)); Engineering (Engineering (miscellaneous)); Materials Science (Materials Science (miscellaneous)).
7thIEEE Sensor Journal11 (1.8)1805United StatesEngineering (Electrical and Electronic Engineering); Physics and Astronomy (Instrumentation).
8thIEEE Transactions on Biomedical Engineering11 (1.8)4659United StatesEngineering (Biomedical Engineering).
9thIEEE Transactions on Information Technology in Biomedicine 9 (1.5)151711United StatesComputer Science (Interdisciplinary Applications); Medical Informatics; Mathematical & Computational Biology; Computer Science (Information Systems).
10thJournal of Medical Systems
Total
Others
9 (1.5)
199 (33.2)
401 (66.8)
2963United StatesComputer Science (Information Systems); Health Professions (Health Information Management); Medicine (Health Informatics; Medicine (miscellaneous)).
Rank AuthorRecordsCitationsTLSCo-Cited AuthorsCitationsTLS
1stBonato, P.91646112Bonato, P.864942
2ndPatel, S.4130488Hausdorff, J.M.523524
3rdRodgers, M.1112658Patel, S.633514
4thPark, H.1112658Lemoyne, R.312760
5thChan, L.1112658Giladi, N.312597
6thParisi, F.24052Aminian, K.652538
7thMauro, A. 24052Mastroianni, T.272440
8thFerrari, G.24052Troster, G.432288
9thCimolin, V.24052Chiari, L.262280
10thAzzaro, C.24052Horak, F.B.201964
Cluster,
Ranked Terms
Top Terms
#0system; information; network; wireless; standard heart; blood; electronic; diagnosis; pressure
#1algorithm; rate; oximetry; respiratory; pulse care; agent; walking; test; heart
#2heart rate; risk; hospital; textile sleep; mental; dementia; prospective; caregiver
#3biomonitoring; e textile; electroactive polymers (EAPs); electronic textile; polymer actuator; polymer battery; polymer electronics; polymer sensor; rehabilitation and telemedicine; smart textile; wearable sensor; actuator; biomedical engineering; biosensor; elastomer; human computer interaction; human rehabilitation equipment; intelligent material; patient monitoring; computing methodology; diagnosis, computer-assisted; electrochemistry; equipment design; monitoring, ambulatory; polymer; telemedicine; telemetry; textile; transducer
#4wireless; signal; internet; electrocardiography; movement aged; male; sleep; textile
#5general practitioner/GP; Internet; telemedicine; biological monitoring; environment; human; Internet of Things; remote sensing; technology; telecommunication; United States; human; image processing, computer-assisted; mountaineering
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de-la-Fuente-Robles, Y.-M.; Ricoy-Cano, A.-J.; Albín-Rodríguez, A.-P.; López-Ruiz, J.L.; Espinilla-Estévez, M. Past, Present and Future of Research on Wearable Technologies for Healthcare: A Bibliometric Analysis Using Scopus. Sensors 2022 , 22 , 8599. https://doi.org/10.3390/s22228599

de-la-Fuente-Robles Y-M, Ricoy-Cano A-J, Albín-Rodríguez A-P, López-Ruiz JL, Espinilla-Estévez M. Past, Present and Future of Research on Wearable Technologies for Healthcare: A Bibliometric Analysis Using Scopus. Sensors . 2022; 22(22):8599. https://doi.org/10.3390/s22228599

de-la-Fuente-Robles, Yolanda-María, Adrián-Jesús Ricoy-Cano, Antonio-Pedro Albín-Rodríguez, José Luis López-Ruiz, and Macarena Espinilla-Estévez. 2022. "Past, Present and Future of Research on Wearable Technologies for Healthcare: A Bibliometric Analysis Using Scopus" Sensors 22, no. 22: 8599. https://doi.org/10.3390/s22228599

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    We predict that with the development of science and technology and the popularization of personalized health concepts, wearable devices will play a greater role in the field of health care and become better integrated into people’s daily lives.

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    More recently, authors such as Motti (2020) have summarized certain characteristics that wearable devices present or should present, such as: optimizations in size and comfort; wearable accessibility: visual enhancements and voice and gesture recognition software; high degree of configuration, allowing different tools to be grouped into a ...

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